Iterated Insights

Ideas from Jared Edward Reser Ph.D.

Reduced Status Competition and Hierarchy Disengagement in Autism May Have Provided an Evolutionary Advantage by Freeing Attention for Independent Activity

Jared Edward Reser, Ph.D. Article type: Hypothesis and theory Abstract Participation in a social group and investment in its status hierarchy are distinguishable dimensions of behavior. An individual may maintain relationships, cooperate, and contribute to collective survival while allocating comparatively little attention to rank, competitive self-presentation, or social comparison. This article proposes the hierarchy disengagement…

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Restoring the Comfortable Body: Persistent Muscular Contraction as a Grand Challenge for AI-Enabled Medicine

Jared Reser, Ph.D.Hypothesis and research agendaSeptember 24, 2026 Abstract Program Peace proposes that recognizing and retraining habitual muscular tension can improve physical comfort and emotional well-being. Building on this framework and the companion article, The Hidden Burden of Muscular Tension, this paper argues that persistent partial contraction and its associated tissue changes deserve a coordinated…

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The Hidden Burden of Muscular Tension: A Hypothesis Linking Latent Tenderness, Habituation, and Well-Being

Jared Reser, Ph.D.Article type: Hypothesis and perspectiveDate: September 24, 2026 Abstract Persistent partial muscular contraction and its associated trigger points, adaptive shortening, stiffness, and inflammatory changes may generate a substantial burden of unrecognized pain and emotional distress. This paper develops that hypothesis around a central observation: deep tissue massage or sustained compression can reveal marked…

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Defining Consciousness Through Iterative Updating: A Mechanistic Framework for Biological and Artificial Minds

Jared Edward Reser, Ph.D. Abstract Uncertainty about the nature of consciousness is frequently invoked as a reason that artificial consciousness cannot be meaningfully assessed. A constructive response is to formulate an explicit mechanistic account and identify the observations that would support or challenge it. This article develops such an account from the iterative updating architecture,…

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Reality Under Threat: Schizophrenia, Defensive Calibration, and the Difference Between Accuracy and Survival

Jared E. Reser, Ph.D. With GPT 5.6.  Abstract Descriptions of schizophrenia as a “break from reality” emphasize failures of perception, belief, and contextual understanding. These descriptions capture important features of psychosis but do not explain the evolutionary origins of the mechanisms involved. This article extends the predictive adaptive response hypothesis of schizophrenia by distinguishing…

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Introduction: The Limits of the Analogy

It has become fashionable to call the present AI acceleration the Manhattan Project of our era. The comparison sounds dramatic, but it falters at the deepest level. The Manhattan Project was a bounded sprint toward a single capability. It had a beginning, a middle, and an end. The infrastructure behind it was temporary, focused, and optimized for one task.

The AI buildout is nothing like this. It is not a sprint. It is not finite. It is not aimed at one achievement. It is the beginning of a self-amplifying, open-ended transformation. It is the quiet construction of a platform that will design, refine, and reinvent itself for as long as matter and energy are available to it.

This is the start of the long ascent toward an optimal computing platform otherwise known ascomputronium.


AI as a Recursive Platform

AI is not only producing models. It is producing the tools, workflows, and design environments that create the next generation of models. Each advance in intelligence increases the efficiency and effectiveness of the search process that produces the next advance.

This includes improvements in:

  • chip design
  • compiler optimization
  • training pipelines
  • distributed systems
  • data flow architectures
  • automated research agents
  • scientific instrumentation
  • organizational coordination

The system feeds back into itself. Better AI tools lead directly to better AI systems, and those systems then enable more optimized hardware, more efficient training, and new modes of discovery.

AI development is therefore a platform that recursively accelerates its own architecture.

The newly announced Genesis Mission, a sprawling U.S. federal effort to fuse supercomputing, vast scientific datasets, and advanced AI models under one unified “science-AI platform,” illustrates precisely how the current AI buildout is not a short-term “war-time sprint.” By channeling decades of federal research data and computational power into a shared architecture for discovery, Genesis does not aim for one single breakthrough, but to create a persistent, evolving substrate in which future breakthroughs, in energy, health, materials, and beyond, emerge continuously.


The Road Toward Computronium

Computronium refers to matter arranged into its most efficient possible configuration for computation. The AI buildout is the earliest step on the path toward such matter. Today’s data centers are merely the initial, low-efficiency substrate in a sequence of progressively optimized computational forms.

The trajectory is not likely to be linear, and it may not be finite. Each generation of computational substrate makes it possible to discover deeper physical principles that support even more efficient architectures. Because the search process itself is driven by increasing intelligence, the frontier of what is possible in computing shifts outward.

Pure computronium may therefore be similar to a physical limit like the speed of light. One can approach it, but the boundary recedes as intelligence discovers new definitions of what counts as optimal computation.


Why the Substrate Ladder Keeps Extending

As intelligence improves, the space of viable computational materials and architectures expands. Matter may need to be reconfigured multiple times, not because the early attempts fail, but because deeper principles are uncovered. Each new substrate reveals inefficiencies in the previous one.

Examples of likely substrate transitions include:

  • new semiconductor materials
  • novel geometries for information flow
  • quantum error-correcting phases
  • extreme-state materials operating under high energy densities
  • architectures exploiting higher-dimensional or topological phenomena
  • computation using spacetime structure itself

In each case, what was previously considered advanced becomes a precursor to a more efficient arrangement. The process is iterative and potentially unbounded.


Computation as a Search Through Physical Law

Once AI systems participate in the design of both their cognitive architecture and the physical substrate that supports it, the development loop no longer sits within traditional engineering. It becomes a systematic search through physics.

This may eventually involve regimes that today seem speculative, such as:

  • stable wormhole-like communication channels
  • quantum gravitational effects as computational resources
  • reversible or spacetime-integrated computing
  • exploitation of exotic phases of matter that require extreme conditions

If physics permits such regimes at all, sufficiently advanced intelligence will eventually reach them, because improving intelligence improves the search process for discovering new computational principles.

At this point, computation is not an application of physics. It is an exploration of physics.


A Cosmological Gradient Rather Than a Project

When intelligence begins to reshape matter, energy, and spacetime into more efficient forms of computation, the process stops resembling a problem-solving effort and starts resembling a directional transformation of the universe.

The feedback loop between intelligence and substrate advances creates a gradient that does not terminate. It is not directed at achieving a single capability. It is directed at continually increasing the efficiency, density, and scope of computation itself.

Projects aim at outcomes. This trajectory transforms the environment that produces outcomes.


Why This Is a Manhattan Platform

The AI buildout is a platform because:

  • it produces tools that generate further tools
  • it raises the intelligence level of the design process
  • it reshapes the physical substrates upon which future intelligence runs
  • it extends into every technological and institutional domain
  • it persists beyond individual goals or milestones

The Manhattan Project created a weapon and concluded. The AI buildout initiates a long-term, open-ended refinement cycle in which matter is repeatedly reorganized into more capable forms of computation.

The direction is stable. The destination is not.


Conclusion: The Infinite Substrate Trajectory

We are not entering a period defined by the construction of a single technology. We are stepping onto a trajectory where each achievement reveals a deeper layer of possible optimization. The goal is not a particular system. The goal is the systematic transformation of matter into increasingly efficient engines of thought.

It marks the beginning of a civilization-scale and potentially universe-scale process in which intelligence continually redesigns the substrate upon which future intelligence will operate. The trajectory is open, unbounded, and recursive, and once it begins, its continuation becomes the default state of the future.

Jared Edward Reser Ph.D. with LLMs

The books listed above contains affiliate links. If you purchase something through them, I may earn a small commission at no additional cost to you. As an Amazon Associate I earn from qualifying purchases.

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